Publication Date
In 2025 | 0 |
Since 2024 | 0 |
Since 2021 (last 5 years) | 2 |
Since 2016 (last 10 years) | 4 |
Since 2006 (last 20 years) | 11 |
Descriptor
Conditioning | 11 |
Sensory Experience | 11 |
Animals | 8 |
Brain Hemisphere Functions | 5 |
Brain | 4 |
Associative Learning | 3 |
Fear | 3 |
Memory | 3 |
Olfactory Perception | 3 |
Animal Behavior | 2 |
Cognitive Processes | 2 |
More ▼ |
Source
Learning & Memory | 11 |
Author
Sullivan, Regina M. | 2 |
Augustine, George J. | 1 |
Barkai, Edi | 1 |
Cho, Jin-Hyung | 1 |
Cholé, Hanna | 1 |
Fontanini, Alfredo | 1 |
Freeman, John H. | 1 |
Gerber, Bertram | 1 |
Gerstner, Florian | 1 |
Gray, Jesse M. | 1 |
Halverson, Hunter E. | 1 |
More ▼ |
Publication Type
Journal Articles | 11 |
Reports - Research | 11 |
Education Level
Audience
Location
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Kikas, Katarina; Westbrook, R. Frederick; Holmes, Nathan M. – Learning & Memory, 2021
Four experiments examined the effects of a dangerous context and a systemic epinephrine injection on sensory preconditioning in rats. In each experiment, rats were exposed to presentations of a tone and light in stage 1, light-shock pairings in stage 2, and test presentations of the tone alone and light alone in stage 3. Presentations of the tone…
Descriptors: Sensory Experience, Conditioning, Animals, Visual Stimuli
Tovar-Díaz, Jorge; Morín, Jean-Pascal; Ríos-Carrillo, Jorge Eduardo; de Jesús, Hilda Sánchez; Roldán-Roldán, Gabriel – Learning & Memory, 2021
In conditioned odor aversion (COA), the association of a tasteless odorized solution (the conditioned stimulus [CS]) with an intraperitoneal injection of LiCl (the unconditioned stimulus [US]), which produces visceral malaise, results in its future avoidance. The strength of this associative memory is mainly dependent on two parameters, that is,…
Descriptors: Short Term Memory, Associative Learning, Conditioning, Olfactory Perception
Weiglein, Alice; Gerstner, Florian; Mancini, Nino; Schleyer, Michael; Gerber, Bertram – Learning & Memory, 2019
Animals of many species are capable of "small data" learning, that is, of learning without repetition. Here we introduce larval "Drosophila melanogaster" as a relatively simple study case for such one-trial learning. Using odor-food associative conditioning, we first show that a sugar that is both sweet and nutritious…
Descriptors: Animals, Associative Learning, Conditioning, Memory
Cho, Jin-Hyung; Rendall, Sam D.; Gray, Jesse M. – Learning & Memory, 2017
"Fos" induction during learning labels neuronal ensembles in the hippocampus that encode a specific physical environment, revealing a memory trace. In the cortex and other regions, the extent to which "Fos" induction during learning reveals specific sensory representations is unknown. Here we generate high-quality brain-wide…
Descriptors: Brain, Fear, Recall (Psychology), Memory
Cholé, Hanna; Junca, Pierre; Sandoz, Jean-Christophe – Learning & Memory, 2015
In honeybees, two olfactory conditioning protocols allow the study of appetitive and aversive Pavlovian associations. Appetitive conditioning of the proboscis extension response (PER) involves associating an odor, the conditioned stimulus (CS) with a sucrose solution, the unconditioned stimulus (US). Conversely, aversive conditioning of the sting…
Descriptors: Entomology, Olfactory Perception, Conditioning, Animal Behavior
Kwon, Jeong-Tae; Nakajima, Ryuichi; Hyung-Su, Kim; Jeong, Yire; Augustine, George J.; Han, Jin-Hee – Learning & Memory, 2014
In Pavlovian fear conditioning, the lateral amygdala (LA) has been highlighted as a key brain site for association between sensory cues and aversive stimuli. However, learning-related changes are also found in upstream sensory regions such as thalamus and cortex. To isolate the essential neural circuit components for fear memory association, we…
Descriptors: Conditioning, Brain Hemisphere Functions, Sensory Experience, Cues
Freeman, John H.; Halverson, Hunter E.; Hubbard, Erin M. – Learning & Memory, 2007
The neural plasticity necessary for acquisition and retention of eyeblink conditioning has been localized to the cerebellum. However, the sources of sensory input to the cerebellum that are necessary for establishing learning-related plasticity have not been identified completely. The inferior colliculus may be a source of sensory input to the…
Descriptors: Conditioning, Brain, Animals, Eye Movements
Sevelinges, Yannick; Sullivan, Regina M.; Messaoudi, Belkacem; Mouly, Anne-Marie – Learning & Memory, 2008
Adult learning and memory functions are strongly dependent on neonatal experiences. We recently showed that neonatal odor-shock learning attenuates later life odor fear conditioning and amygdala activity. In the present work we investigated whether changes observed in adults can also be observed in other structures normally involved, namely…
Descriptors: Conditioning, Inhibition, Adult Learning, Brain
Fontanini, Alfredo; Katz, Donald B.; Wang, Yunyan – Learning & Memory, 2006
Lesions of the basolateral amygdala (BLA) have long been associated with abnormalities of taste-related behaviors and with failure in a variety of taste- and odor-related learning paradigms, including taste-potentiated odor aversion, conditioned taste preference, and conditioned taste aversion. Still, the general role of the amygdala in…
Descriptors: Drug Use, Behavior Patterns, Conditioning, Learning Processes
Lebel, David; Sidhu, Nishchal; Barkai, Edi; Quinlan, Elizabeth M. – Learning & Memory, 2006
Olfactory discrimination (OD) learning consists of two phases: an initial N-methyl-d-aspartate (NMDA) receptor--sensitive rule-learning phase, followed by an NMDA receptor (NMDAR)--insensitive pair-learning phase. The rule-learning phase is accompanied by changes in the composition and function of NMDARs at synapses in the piriform cortex,…
Descriptors: Behavior Modification, Discrimination Learning, Neurolinguistics, Conditioning
Lunday, Lauren; Miner, Cathrine; Roth, Tania L.; Sullivan, Regina M.; Shionoya, Kiseko; Moriceau, Stephanie – Learning & Memory, 2006
Fetal and infant rats can learn to avoid odors paired with illness before development of brain areas supporting this learning in adults, suggesting an alternate learning circuit. Here we begin to document the transition from the infant to adult neural circuit underlying odor-malaise avoidance learning using LiCl (0.3 M; 1% of body weight, ip) and…
Descriptors: Body Weight, Conditioning, Animals, Brain